Critical Minerals Governance For Electricity Systems
Critical Minerals Governance for Electricity Systems
Detailed Explanation With Case Laws
1. Introduction
Critical Minerals Governance for Electricity Systems means the legal, regulatory and institutional framework used to ensure that electricity systems have reliable and sustainable access to minerals needed for generation, transmission, distribution, storage and grid modernisation.
Modern electricity systems depend on materials such as copper, aluminium, lithium, graphite, nickel and certain rare earth elements. These materials may face supply risks because of geographical concentration, limited processing capacity, geopolitical tensions, environmental constraints or rapidly increasing demand.
Therefore, electricity governance increasingly needs to consider not only electricity supply, but also the material supply chains supporting electricity infrastructure.
2. Meaning of Critical Minerals Governance
Critical-mineral governance involves several stages:
Identification → extraction → processing → transport → manufacturing → use → recycling → reuse
Government institutions may regulate these stages through:
mining laws;
environmental laws;
electricity legislation;
trade rules;
foreign-investment screening;
procurement rules;
recycling requirements;
competition law; and
strategic planning.
The objective is to ensure that a shortage of important minerals does not become a major obstacle to electricity-system development.
3. Why Electricity Systems Need Critical Minerals
Different electricity technologies require different materials.
Copper
Copper is extensively used in:
transmission and distribution cables;
transformers;
generators;
substations; and
electrical equipment.
Aluminium
Aluminium is widely used in overhead transmission infrastructure because of its relatively low weight and electrical conductivity.
Lithium and Graphite
These are important for many battery-storage technologies.
Nickel and Cobalt
Some battery technologies use significant quantities of these materials.
Rare Earth Elements
Some wind turbines and electric motors use permanent magnets containing rare earth elements.
Thus:
Critical minerals → electricity infrastructure → energy security → energy transition.
4. Institutional Governance
Effective governance requires coordination among different institutions.
Important actors may include:
energy ministries;
mining ministries;
electricity regulators;
environmental authorities;
competition authorities;
trade authorities;
national-security agencies;
grid operators; and
recycling regulators.
For example, an electricity regulator may plan grid expansion, while a mining authority regulates mineral extraction.
Without coordination, a country could approve major electricity projects without considering whether sufficient materials are available to build them.
5. Critical-Mineral Identification
Governments normally create lists of minerals considered critical or strategic.
However, criticality is not permanent.
A mineral can become more important because:
demand increases;
a new technology becomes widespread;
supply becomes concentrated;
processing capacity becomes restricted; or
substitutes become less available.
The EU Critical Raw Materials Act 2024 establishes lists of critical and strategic raw materials based on economic importance and supply risk.
This provides a legal basis for targeted governance rather than treating every mineral in exactly the same way.
6. Supply-Chain Security
A major objective is to reduce excessive dependence on one supplier.
Governments can use:
Diversification
Developing relationships with several producing countries.
Domestic Production
Supporting responsible domestic extraction.
Processing Capacity
Developing refining and processing facilities.
Recycling
Recovering minerals from used batteries, electrical equipment and renewable-energy infrastructure.
Strategic Reserves
Maintaining stocks of particularly important materials.
The EU Critical Raw Materials Act combines several of these approaches through targets for extraction, processing and recycling and through its Strategic Projects framework.
7. Link with Electricity Planning
Critical-mineral governance should be connected with electricity-system planning.
Suppose a country plans to build:
thousands of kilometres of transmission lines;
large battery-storage systems;
renewable-generation capacity; and
new substations.
The government should assess the mineral requirements of these projects.
This produces a useful planning chain:
Electricity demand forecast → infrastructure requirement → material requirement → supply-risk assessment → procurement and investment strategy.
This is an important development in modern energy governance.
8. Case Law: China — Rare Earths
The leading international authority is China — Measures Related to the Exportation of Rare Earths, Tungsten and Molybdenum, WTO disputes DS431, DS432 and DS433.
China imposed measures including:
export duties;
export quotas;
export licensing requirements; and
restrictions on trading rights.
The United States, EU and Japan challenged the measures.
The WTO Panel and Appellate Body found that the challenged measures were inconsistent with China's WTO obligations and that the relevant exceptions did not justify them.
Relevance to Electricity Governance
Rare earth elements are important for some electricity technologies, including certain permanent-magnet applications.
The case demonstrates that governments have legitimate interests in managing natural resources, but criticality alone does not automatically make trade restrictions lawful.
Governance must operate consistently with international legal obligations.
9. Environmental Governance
Mineral extraction can have significant environmental consequences.
Critical-mineral governance must therefore include:
environmental-impact assessment;
water management;
pollution controls;
biodiversity protection;
mine rehabilitation; and
waste management.
This creates an important legal balance:
secure mineral supply
and
sustainable mineral production.
Increasing supply without environmental safeguards may create long-term social and ecological costs.
10. Case Law: VYSOČINA WIND
In VYSOČINA WIND a.s. v Česká republika, Case C-181/20, the Court of Justice of the European Union considered the application of EU waste legislation to photovoltaic panels and questions concerning the costs of collection, treatment, recovery and environmentally sound disposal.
Relevance
Electricity governance cannot stop at the construction stage.
Solar panels eventually become waste, and their materials may be recoverable.
The case therefore supports a broader governance approach:
Production → operation → end-of-life management → recovery of materials.
This is particularly important for critical minerals and the circular economy.
11. Recycling Governance
Recycling can provide a secondary source of critical minerals.
Examples include:
Used battery → collection → treatment → mineral recovery → new battery
and
Old electrical equipment → material recovery → new grid equipment.
The EU Critical Raw Materials Act establishes a 2030 benchmark aimed at developing EU recycling capacity for strategic raw materials.
Recycling governance may therefore involve:
producer responsibility;
collection requirements;
recycling targets;
material reporting;
traceability; and
recovery standards.
12. Foreign Investment Governance
Foreign investment can bring capital and technology into critical-mineral industries.
However, governments may examine investments where ownership of a mine, refinery or processing company could create national-security or supply-chain risks.
Investment screening may therefore be relevant to:
critical-mineral mines;
processing facilities;
battery-material producers;
recycling companies; and
strategically important mineral technologies.
The aim is not necessarily to prevent foreign investment, but to ensure that strategically sensitive ownership risks are properly assessed.
13. Competition Governance
Critical-mineral markets can become vulnerable to excessive concentration.
If a small number of companies control:
mining;
processing;
refining; or
recycling,
market concentration could potentially affect prices and supply.
Competition authorities may therefore need to examine:
mergers;
acquisitions;
market dominance;
restrictive agreements; and
supply arrangements.
This is particularly important where one part of the supply chain is controlled by only a small number of firms.
14. Strategic Projects
Governments may identify certain mining, processing or recycling projects as strategically important.
Such projects may receive:
coordinated permitting;
infrastructure support;
investment assistance;
financing support; or
accelerated administrative procedures.
The EU Strategic Projects framework under the Critical Raw Materials Act is an example.
However, accelerated approval should not mean that environmental or public-law requirements disappear.
15. Trade and International Cooperation
No country can easily produce every critical mineral domestically.
International cooperation is therefore essential.
Governments may establish:
bilateral mineral partnerships;
supply agreements;
research cooperation;
recycling partnerships;
technology-sharing arrangements; and
diversified import relationships.
This creates a governance model based on resilience rather than complete self-sufficiency.
16. Role of Electricity Regulators
Electricity regulators traditionally focus on:
reliability;
network access;
tariffs;
market regulation;
consumer protection; and
system security.
Increasing mineral dependence may require regulators and system planners to consider material supply risks when assessing major infrastructure programmes.
For example, procurement rules for transformers, cables and batteries could consider:
supply concentration;
material availability;
recycling;
supplier diversity; and
long-term resilience.
17. Main Principles of Critical-Mineral Governance
A strong framework should include:
1. Strategic Identification
Regularly review which minerals are critical.
2. Supply Diversification
Avoid excessive dependence on one source.
3. Domestic Capability
Develop appropriate mining and processing capacity.
4. Recycling
Treat waste as a source of secondary materials.
5. Environmental Protection
Ensure responsible extraction and processing.
6. Investment Screening
Assess strategic ownership risks.
7. Competition
Prevent harmful market concentration.
8. International Cooperation
Develop reliable international supply relationships.
9. Transparency
Maintain reliable data about supply chains.
10. Long-Term Planning
Connect mineral policy with electricity-system planning.
18. Conclusion
Critical Minerals Governance for Electricity Systems represents an emerging area of energy law in which mineral policy and electricity regulation increasingly overlap.
Modern electricity systems require reliable access to materials for:
transmission;
distribution;
transformers;
renewable generation;
battery storage; and
grid modernisation.
The EU Critical Raw Materials Act demonstrates a comprehensive governance approach based on extraction, processing, recycling, diversification and strategic projects.
The WTO China — Rare Earths dispute shows that governments may have legitimate resource and environmental objectives, but critical-mineral measures must still comply with international trade obligations. The VYSOČINA WIND judgment further demonstrates the importance of managing renewable-energy equipment throughout its entire life cycle, including recovery and disposal.
Therefore, effective critical-mineral governance should not focus only on mining more minerals. It should create a complete legal framework covering supply security, responsible extraction, processing, investment, trade, electricity planning, recycling and international cooperation. This integrated approach helps ensure that shortages of critical materials do not become a barrier to reliable electricity infrastructure or the wider energy transition.

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